A biosensor is an integrated receptor-transducer device that converts a biological response into an electrical signal. The design and development of biosensors have taken center stage for researchers or scientists in the recent decade owing to the wide range of biosensor applications in healthcare and disease diagnosis, environmental monitoring, water and food quality, and drug delivery. Due to their adaptability, ease of use in relatively complex samples, and portability, the significance of electrochemical biosensors in analytical chemistry has increased manifold. Electrochemistry has been pivotal in developing transduction methods for biological processes and biosensors. In parallel, the explosion of activity in nanoscience and nanotechnology and their huge success have profoundly affected biosensor technology, opening new avenues of research for electrode materials and transduction. Electrochemical Biosensors in Practice: Material and Methods particularly explores the use of silver and gold nanoparticles for signal amplification, photocurrent transduction, and aptamer design. Therefore, the book serves as an introductory text for those specializing in biosensors and bioelectronics and their practical applications. Key features - Includes structured information for easy understanding of the subject - Provides an introduction to biosensors and electrochemical biosensor classification - Explains fundamental concepts and practical electrochemistry techniques for research - Provides notes on essential electrochemical sensor materials such as graphene, carbon nanotubes, conductive polymers, and other advanced materials - Provides information about electrochemical biosensor development - Informs readers about recent applications and research findings - Includes references for further reading

This volume is a complete review of the cutting-edge scientific evidence about the isolation, identification, bioactivity and molecular analysis of the biologically active peptides (BAPs) obtained from several underutilized grains. It provides a general review of current and new technologies in isolating and bioprospecting BAPs before going into the details of 11 grains. Amaranth, quinoa, millet, buckwheat, sorghum, lupin, mung bean, chickpea, broad bean, cocoa bean and chia are extensively discussed in dedicated chapters. Additionally, these chapters provide information about the characteristics of the crop, its main varieties, traditional uses, economic importance, nutritional aspects, structure and chemical composition of the grains, as well as the classification and distribution of the grain protein fractions. Moreover, the advances in the analytical techniques used for the concentration, purification and molecular characterization of BAPs are described. The impact of BAPs in the promotion of health is highlighted, as well as their potential incorporation as promising ingredients in the development of functional foods, nutraceuticals and cosmeceuticals. Finally, the main findings related to the potential antiviral and anti-COVID-19 activities of BAPs derived from underutilized grains are described. This reference will be of interest for academics, professionals and researchers focused in food science, biotechnology, pharmacology and agriculture, and to professionals involved in the research and development of natural products, pharmaceuticals and cosmeceuticals.

Cerium is the most abundant metal of rare-earth elements. It can be used to make materials such as phosphors and alloys, that have applications in various applied fields (like electronics, magnetics and heterogeneous catalysis) and devices (like catalytic converters and gas mantles). Cerium-Based Materials: Synthesis, Properties and Applications presents detailed knowledge about cerium materials. Starting with the history of cerium-based materials, it gives an introduction to the synthesis of chemicals like cerium oxides and composites. This is followed by information about characterization of cerium nanoparticles and industrial applications of cerium-based materials, with a focus on catalysis, biomedical engineering and pharmaceutical chemistry. This book is an essential reference for researchers and chemical engineers who want a summary of cerium materials and its applications.

Medicinal chemists around the world have been inspired by nature and have successfully extracted chemicals from plants. Research on enzymatic modifications of naturally occurring compounds has played a critical role in the search for biologically active molecules to treat diseases. This book set explores compounds of interest to researchers and clinicians. It presents a comprehensive analysis about the medicinal chemistry (drug design, structure-activity relationships, permeability data, cytotoxicity, appropriate statistical procedures, molecular modelling studies) of different compounds. Each chapter brings contributions from known scientists explaining experimental results which can be translated into clinical practice. Volume 3 presents (1) a brief overview of botanical and pharmacological properties of alkaloids, (2) a summary of the synthesis of natural morphinans and related alkaloids, (3) caffeine-based compounds for the treatment of neurodegenerative disorders, (4) piperine derivatives, (5) noscapine-based anti-cancer agents, (6) biogenic amines and amino acid derivatives as carbonic anhydrase modulators and (7) antimalarial compounds on quinoline scaffolds. The objective of this book is to fulfil gaps in current knowledge with updated information from recent years. It serves as a guide for academic and professional researchers and clinicians.

Ionic Liquids: Eco-friendly Substitutes for Surface and Interface Applications explores the growing interest in utilizing ionic liquids as sustainable alternatives for various industrial and biological applications. With their unique properties and environmentally friendly nature, ionic liquids have emerged as promising substitutes for toxic and volatile solvents, offering significant advantages in surface and interface chemistry. This book is divided into two parts: Part 1 covers the basics of ionic liquids, their surface/interface properties, and interactions with metallic surfaces. Part 2 focuses on the wide range of surface and interface applications of ionic liquids, including wastewater treatment, corrosion protection, catalysis, separation processes, medical devices, and sensing applications. Key Features: A complete book fully dedicated to the surface and interface chemistry of ionic liquids with seventeen chapters Covers fundamentals, recent progress, and applications in surface/interface chemistry Presents up-to-date research and interdisciplinary insights Includes relevant references and resources for further exploration This is a valuable reference for scientists and engineers who want to learn about ionic liquids' chemistry and applications

Advanced Catalysts Based on Metal-organic Frameworks is a comprehensive introduction to advanced catalysts based on MOFs. It covers basic information about MOF catalysts with industrial and environmental applications. The detailed chapters update readers on current applications and strategies to apply MOF-based catalysts in industrial processes geared for sustainability initiatives such as renewable energy, pollution control and combating carbon emissions. Key Features of Part 2 - 7 structured, easy to read chapters that comprehensively cover specific applications of MOF catalysts - In-depth explanation of photocatalytic reactions for multifunctional electrocatalysis, water splitting and CO2 Capture - Notes on MOF materials used in modern processes - Explanation of MOFs in advanced oxidation reactions - Introduction to Electrochemical biosensors - Updated references for advanced readers The is an essential reference for chemical engineers, scientists in the manufacturing and sustainability industry and post-graduate scholars working on MOFs and chemical catalysis.

This series provides information on the nature of dyes, their harmful effects, and dye degrading techniques. The first volume of this series presents a fundamental concept of dye degradation. The information on target-oriented dye mitigation is intended to give readers a better understanding of the dye degradation process to sustain a healthy environment. Chapters present referenced information and highlight novel breakthroughs in the industry. Key topics: Foundations of Dye Knowledge: Evaluating Toxicity Nanotechnology Electrochemistry Catalytic Materials and Photocatalysis Microbial Biodegradation This book serves as a foundational resource for researchers and students in chemistry and chemical engineering courses. It also serves as a reference for industry professionals who work with chemical dyes (for example in textile and plastic industries) and are engaged in the critical field of environmental remediation.

This series provides information on the nature of dyes, their harmful effects, and dye degrading techniques. The second volume focuses on sophisticated oxidation methods for dye degradation. The information on target-oriented dye mitigation is intended to give readers a better understanding of the dye degradation process to sustain a healthy environment. Chapters present referenced information and highlight novel industry breakthroughs. Key topics: The Fenton process for dye removal MOF-based and graphene oxide photocatalysts for dye degradation Novel photocatalysts active in visible light and IR spectra Photocatalytic degradation of transition metal dichalcogenides Environment friendly synthesis of photocatalysts for dye degradation Metal oxide Nanomaterials for dye degradation This volume is a comprehensive singular resource on photocatalytic dye degradation for researchers, apprentices and learners in chemistry and chemical engineering courses. It also serves as a reference for industry professionals who work with chemical dyes (for example in textile and plastic industries) and are engaged in the critical field of environmental remediation.

Biosurfactants, derived from microbes and plants, exhibit diverse properties that help in emulsifying and foaming processes. With applications in pharmaceuticals, cosmetics, and agriculture, they also show antimicrobial and environmental benefits, such as oil removal in polluted areas. Biosurfactants show promise for pollution control and improving agriculture. This reference covers the basic science and major applications of biosurfactants. The book brings together contributions from experts in microbiology, cancer biology, pharmaceutical science, nanotechnology, plant biotechnology, and environmental sciences into a single volume. Key Features - Explains the basics of biosurfactants - Discusses novel applications of biosurfactants in the fields of medicine, agriculture, and environmental sustainability. - Includes special chapters that review the role of biosurfactants in environmental remediation and omics research - Includes detailed references in each chapter Biosurfactants: A Boon to Healthcare, Agriculture & Environmental Sustainability is an essential resource for learners and professional trainees who require knowledge about biosurfactants. It also provides information for anyone who is working on environmental sustainability projects.

Sample treatment has been the focus of intensive research in the last 20 years since it still remains a bottleneck in precise analytical procedures. The low concentration of the target analytes, the large amount of potential interfering agents and the incompatibility of the sample matrix with the instrumental techniques are the main reasons for these bottlenecks. In most of these methods, sample treatment is an unavoidable step and it has a clear influence on the quality (sensitivity, selectivity, and accuracy) of the final analytical results. While the usefulness of microextraction techniques has been established, their complete acceptance in analytical laboratories (including official methods of analysis) depends on their successful automation and integration with conventional analytical instrumentation. Analytical Microextraction Techniques presents comprehensive information about several analytical methods that are useful in the laboratory. These include: sorptive microextraction, solid and liquid phase microextraction, packed sorbent microextraction, miniaturized dispersive solid-phase extraction, thin film and nanoparticle based techniques, and membrane-based techniques. This is a vital reference on microextraction and sample preparation techniques for applied chemistry students, analytical chemists and laboratory technicians.